This study introduces a three-dimensional (3D) model for investigating the interactions between trabecular bone tissue and bio-resorbable grafts, focusing on their role in bone remodelling processes. Using principles of poroelasticity, the model captures the mechanical behaviour of both bone and graft as porous continua, with their interaction influenced by time-varying mechanical loads and diffusive mechanical stimuli. The stimuli, originating from the strain energy density, propagate through the system, triggering bone formation and graft resorption across distant regions. Numerical simulations reveal the critical impact of load frequency and intensity on remodelling efficiency, with higher values promoting improved bone density and graft integration. This 3D approach provides information on optimizing scaffold design, offering valuable guidance to improve clinical outcomes in bone repair and regeneration procedures.

Simulating bone healing with bio-resorbable scaffolds in a three-dimensional system: insights into graft resorption and integration / Allena, Rachele; Scerrato, Daria; Bersani, Alberto; Giorgio, Ivan. - In: COMPTES RENDUS MECANIQUE. - ISSN 1631-0721. - 353:(2025), pp. 479-497. [10.5802/crmeca.291]

Simulating bone healing with bio-resorbable scaffolds in a three-dimensional system: insights into graft resorption and integration

Daria Scerrato;Alberto Bersani;
2025

Abstract

This study introduces a three-dimensional (3D) model for investigating the interactions between trabecular bone tissue and bio-resorbable grafts, focusing on their role in bone remodelling processes. Using principles of poroelasticity, the model captures the mechanical behaviour of both bone and graft as porous continua, with their interaction influenced by time-varying mechanical loads and diffusive mechanical stimuli. The stimuli, originating from the strain energy density, propagate through the system, triggering bone formation and graft resorption across distant regions. Numerical simulations reveal the critical impact of load frequency and intensity on remodelling efficiency, with higher values promoting improved bone density and graft integration. This 3D approach provides information on optimizing scaffold design, offering valuable guidance to improve clinical outcomes in bone repair and regeneration procedures.
2025
biomechanical stimulus; bone remodelling; bone–graft interaction; fick’s laws of diffusion; porous resorbable scaffold
01 Pubblicazione su rivista::01a Articolo in rivista
Simulating bone healing with bio-resorbable scaffolds in a three-dimensional system: insights into graft resorption and integration / Allena, Rachele; Scerrato, Daria; Bersani, Alberto; Giorgio, Ivan. - In: COMPTES RENDUS MECANIQUE. - ISSN 1631-0721. - 353:(2025), pp. 479-497. [10.5802/crmeca.291]
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/11573/1736826
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